Literature DB >> 11822979

Myocardial hibernation in coronary artery disease.

Dinesh K Kalra1, William A Zoghbi.   

Abstract

Coronary artery disease (CAD) is very prevalent in Western societies and is a leading cause of mortality and morbidity. Despite decreases in mortality rates from CAD over the past 30 years, ischemic heart failure remains an important problem because people with CAD are now living longer. Hibernating myocardium may be defined as reversible left ventricular dysfunction due to chronic CAD that shows improvement in function after revascularization. Many patients with ischemic cardiomyopathy have areas of hibernating myocardium, and thus can potentially show improvement in left ventricular regional and global function if they are revascularized. Whether hibernating myocardium represents an adaptive response to hypoperfusion in the face of chronic ischemia or whether it is a degenerative process is not entirely clear. Clearly, ultrastructural changes of de-differentiation are seen, and include loss of sarcomeres and the appearance of small mitochondria and glycogen accumulation. Although the mechanisms underlying the changes in morphology and depressed contractility, and the factors governing recovery of function are not clear, changes in adrenergic receptor density, cytokine upregulation, and the degree of fibrosis may all play a role. Identification of viability is commonly performed with dobutamine echocardiography or nuclear imaging. Because patients with extensive CAD and poor left ventricular systolic function are high-risk candidates for coronary bypass surgery, the preoperative identification of viability provides important prognostic information. Patients with viable myocardium who are treated with revascularization rather than medical therapy have better outcomes in terms of survival, left ventricular function, symptoms, and exercise capacity.

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Year:  2002        PMID: 11822979     DOI: 10.1007/s11883-002-0039-x

Source DB:  PubMed          Journal:  Curr Atheroscler Rep        ISSN: 1523-3804            Impact factor:   5.113


  51 in total

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Journal:  Circulation       Date:  1991-03       Impact factor: 29.690

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  10 in total

Review 1.  Mitochondrial morphology and cardiovascular disease.

Authors:  Sang-Bing Ong; Derek J Hausenloy
Journal:  Cardiovasc Res       Date:  2010-07-14       Impact factor: 10.787

2.  Regulation of mitochondrial fission by intracellular Ca2+ in rat ventricular myocytes.

Authors:  Jennifer Hom; Tianzheng Yu; Yisang Yoon; George Porter; Shey-Shing Sheu
Journal:  Biochim Biophys Acta       Date:  2010-03-27

Review 3.  New vessel formation in the context of cardiomyocyte regeneration--the role and importance of an adequate perfusing vasculature.

Authors:  Katherine C Michelis; Manfred Boehm; Jason C Kovacic
Journal:  Stem Cell Res       Date:  2014-04-29       Impact factor: 2.020

Review 4.  Mitochondria in heart failure: the emerging role of mitochondrial dynamics.

Authors:  José Marín-García; Alexander T Akhmedov; Gordon W Moe
Journal:  Heart Fail Rev       Date:  2013-07       Impact factor: 4.214

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Authors:  Genzou Takemura; Hiromitsu Kanamori; Hideshi Okada; Akiko Tsujimoto; Nagisa Miyazaki; Shusaku Miyata; Hideaki Ohta; Yoshiaki Kawase; Makoto Ono; Mamoru Mochizuki; Shigeki Kobayashi; Kenji Onoue; Tomoya Nakano; Yasuhiro Sakaguchi; Hitoshi Matsuo; Masafumi Yano; Yoshihiko Saito
Journal:  J Cardiol Cases       Date:  2017-08-30

Review 6.  Morphological dynamics of mitochondria--a special emphasis on cardiac muscle cells.

Authors:  Jennifer Hom; Shey-Shing Sheu
Journal:  J Mol Cell Cardiol       Date:  2009-03-09       Impact factor: 5.000

Review 7.  Mitochondrial morphology in metabolic diseases.

Authors:  Chad A Galloway; Yisang Yoon
Journal:  Antioxid Redox Signal       Date:  2012-08-27       Impact factor: 8.401

8.  Chronic total coronary occlusion in patients with intermediate viability: value of low-dose dobutamine and contrast-enhanced 3-T MRI in predicting functional recovery in patients undergoing percutaneous revascularisation with drug-eluting stent.

Authors:  F Fiocchi; F Sgura; A Di Girolamo; G Ligabue; S Ferraresi; R Rossi; R D'Amico; M G Modena; P Torricelli
Journal:  Radiol Med       Date:  2009-06-23       Impact factor: 3.469

Review 9.  Mechanotransduction and Metabolism in Cardiomyocyte Microdomains.

Authors:  Francesco S Pasqualini; Alexander P Nesmith; Renita E Horton; Sean P Sheehy; Kevin Kit Parker
Journal:  Biomed Res Int       Date:  2016-12-04       Impact factor: 3.411

10.  A post-MI power struggle: adaptations in cardiac power occur at the sarcomere level alongside MyBP-C and RLC phosphorylation.

Authors:  Christopher N Toepfer; Markus B Sikkel; Valentina Caorsi; Anupama Vydyanath; Iratxe Torre; O'Neal Copeland; Alexander R Lyon; Steven B Marston; Pradeep K Luther; Kenneth T Macleod; Timothy G West; Michael A Ferenczi
Journal:  Am J Physiol Heart Circ Physiol       Date:  2016-05-27       Impact factor: 4.733

  10 in total

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